Adult stem cells are required for epithelial tissue homeostasis, but the mechanisms through which these cells are activated and maintain quiescence are not well understood. Postnatal epidermis and hair follicles are accessible and well-characterized systems in which to study adult stem cells. Secreted signaling molecule FGF18 is required for hair follicle stem cell quiescence, but the mechanisms that regulate Fgf18 expression and maintain quiescence are incompletely characterized. We find that transcription factor KLF4 is expressed in quiescent hair follicle stem cells and excluded from proliferating hair follicle cells. KLF4 is required for epidermal barrier development, but its roles in postnatal life remain understudied. To determine the...
The skin epidermis develops from a single uniform layer of multipotent cells during embryogenesis. M...
Hair is a primary characteristic of mammals, and exerts a wide range of functions including thermore...
Hair follicles repeatedly cycle through growth (anagen), regression (catagen), and resting (telogen)...
Kruppel-like factor KLF4 is a transcription factor critical for the establishment of the barrier fun...
Adult mammalian epidermis contains multiple stem cell populations in which quiescent and more prolif...
Adult mammalian epidermis contains multiple stem cell populations in which quiescent and more prolif...
Adult stem cells (SCs) utilize their abilities of self-renewal and differentiation to maintain prope...
AbstractEpidermal stem cells residing in different locations in the skin continuously self-renew and...
Notch signaling involves ligand-receptor interactions through direct cell-cell contact. Multiple Not...
Maintenance of adult stem cells and their progenitor cells is critical for proper homeostasis of the...
Epithelial hair follicle stem cells (eHFSCs) are required to generate, maintain and renew the contin...
[[abstract]]BACKGROUND: Notch signaling involves ligand-receptor interactions through direct cell-ce...
Notch signaling involves ligand-receptor interactions through direct cell-cell contact. Multiple Not...
[[abstract]]Epidermal stem cells residing in different locations in the skin continuously self-renew...
SummarySox family transcription factors have emerged as key regulators of multiple developmental pro...
The skin epidermis develops from a single uniform layer of multipotent cells during embryogenesis. M...
Hair is a primary characteristic of mammals, and exerts a wide range of functions including thermore...
Hair follicles repeatedly cycle through growth (anagen), regression (catagen), and resting (telogen)...
Kruppel-like factor KLF4 is a transcription factor critical for the establishment of the barrier fun...
Adult mammalian epidermis contains multiple stem cell populations in which quiescent and more prolif...
Adult mammalian epidermis contains multiple stem cell populations in which quiescent and more prolif...
Adult stem cells (SCs) utilize their abilities of self-renewal and differentiation to maintain prope...
AbstractEpidermal stem cells residing in different locations in the skin continuously self-renew and...
Notch signaling involves ligand-receptor interactions through direct cell-cell contact. Multiple Not...
Maintenance of adult stem cells and their progenitor cells is critical for proper homeostasis of the...
Epithelial hair follicle stem cells (eHFSCs) are required to generate, maintain and renew the contin...
[[abstract]]BACKGROUND: Notch signaling involves ligand-receptor interactions through direct cell-ce...
Notch signaling involves ligand-receptor interactions through direct cell-cell contact. Multiple Not...
[[abstract]]Epidermal stem cells residing in different locations in the skin continuously self-renew...
SummarySox family transcription factors have emerged as key regulators of multiple developmental pro...
The skin epidermis develops from a single uniform layer of multipotent cells during embryogenesis. M...
Hair is a primary characteristic of mammals, and exerts a wide range of functions including thermore...
Hair follicles repeatedly cycle through growth (anagen), regression (catagen), and resting (telogen)...